practicecalculus
University of Houston

UH MATH 2415 Calculus III: Syllabus, Topics and Practice

A study guide for University of Houston MATH 2415 Calculus III (formerly MATH 2433): vectors, partial derivatives, multiple and line integrals.

University of Houston Updated 3 min read

At a glance

Course code
MATH 2415 (previously MATH 2433)
Credits
Not printed on the course page; the Texas course number 2415 indicates 4 semester credit hours
Prerequisites
MATH 2414
Covers
Vectors and vector-valued functions, partial differentiation, Lagrange multipliers, multiple integrals, Jacobians, line integrals, Green's Theorem, the Divergence Theorem and Stokes' Theorem
Previous course
MATH 2414 Calculus II
Practice here
Calculus 3

Try it yourself

Find the magnitude of $\vec v = \langle -5, 5, 3 \rangle$.
\vec v = \langle -5, 5, 3 \rangle
|\vec v| =
Practice more like this →
On this page
  1. What UH MATH 2415 covers
  2. MATH 2415 topic map
  3. MATH 2415 in the UH sequence
  4. Example problems at the MATH 2415 level
  5. How to do well in MATH 2415

UH MATH 2415 (Calculus III) is the third course in the University of Houston calculus sequence and was previously numbered MATH 2433. It lists MATH 2414 as its prerequisite. This guide maps the department's published syllabus to lessons you can practice with instant feedback.

What UH MATH 2415 covers

The UH Department of Mathematics course guideline describes MATH 2415 as the calculus of functions of several variables: calculus of vector-valued functions, partial differentiation, multiple integrals. Its curriculum details add vectors and vector-valued functions, Lagrange multipliers, Jacobians, and line integrals with Green's Theorem, the Divergence Theorem and Stokes' Theorem. The learning outcomes also mention curvature, velocity, acceleration and torsion for vector-valued functions.

The syllabus is organized in six chapters:

  1. Vectors: Cartesian space coordinates, vectors, the dot and cross product, lines and planes.
  2. Vector calculus: vector functions, differentiation formulas, curves, arc length, curvilinear motion and curvature.
  3. Functions of several variables: graphs, level curves and surfaces, limits and continuity, partial derivatives.
  4. Gradients, extreme values, differentials: the gradient and directional derivatives, chain rules, tangent planes, local and absolute extremes, Lagrange multipliers, reconstructing a function from its gradient.
  5. Double and triple integrals: repeated integrals, polar, cylindrical and spherical coordinates, Jacobians and change of variables.
  6. Line and surface integrals: the Fundamental Theorem for line integrals, Green's Theorem, parameterized surfaces, surface integrals, the Divergence Theorem and Stokes's Theorem.

MATH 2415 topic map

MATH 2415 topic Practice Read
Space coordinates and vectors Points and distance Dot and cross product
Dot and cross product Cross product Dot product
Lines and planes Lines in space Planes in space
Vector functions, motion, curvature Curves and motion Parametric motion
Level curves and partial derivatives Functions of several variables Partial derivatives
Gradient and directional derivatives Gradient and directional derivatives Gradient guide
Chain rules and tangent planes Multivariable chain rule Tangent planes
Extreme values and Lagrange multipliers Lagrange multipliers Lagrange multipliers
Double integrals, polar form Polar double integrals Double integrals
Triple integrals, cylindrical, spherical Cylindrical and spherical Triple integrals
Jacobians Change of variables Double integral applications
Line integrals and potentials Conservative fields Line integrals of functions
Green's Theorem Green's theorem Green's theorem
Surface integrals, Divergence and Stokes Stokes and divergence theorems Divergence theorem, Stokes' theorem

MATH 2415 in the UH sequence

Course Old number Prerequisite
MATH 2413 Calculus I MATH 1431 MATH 2312 with C- or placement
MATH 2414 Calculus II MATH 1432 MATH 2413 with C-
MATH 2415 Calculus III MATH 2433 MATH 2414

Example problems at the MATH 2415 level

1. A tangent plane. For z = x^2 + y^2 at (1, 1, 2):

z = 2 + 2(x - 1) + 2(y - 1)

2. A Jacobian. For polar coordinates x = r\cos\theta, y = r\sin\theta, the Jacobian is r, which is why dA = r\,dr\,d\theta.

3. Green's Theorem. For \mathbf{F} = \langle -y, x \rangle around the unit circle:

\oint_C -y\,dx + x\,dy = \iint_D 2\,dA = 2\pi

How to do well in MATH 2415

  • Master vectors in the first chapter. Dot and cross products show up again in tangent planes, flux and Stokes' Theorem.
  • Sketch level curves and regions before computing anything.
  • Choose coordinates to match the shape in double and triple integrals.
  • Make a one-page theorem sheet with what each of Green's, Stokes' and the Divergence Theorem says and when it applies, then test yourself with vector calculus practice.
  • Use timed practice exams before each test.

Tip: before parameterizing a line integral, check if the field is a gradient. The syllabus covers reconstructing a function from its gradient for exactly this reason.

Practice it now

Vectors and their length

Solve real problems on this topic with instant feedback, hints and a step-by-step walkthrough for every answer. Free, no sign-up needed to start.

Practice this lesson

Frequently asked questions

What is MATH 2415 at the University of Houston?

MATH 2415 Calculus III covers the calculus of functions of several variables: calculus of vector-valued functions, partial differentiation and multiple integrals. The curriculum details add Lagrange multipliers, Jacobians, line integrals, Green's Theorem, the Divergence Theorem and Stokes' Theorem.

Is MATH 2415 the same as MATH 2433?

Yes. The UH math department says MATH 2415 was previously MATH 2433.

What is the prerequisite for MATH 2415?

MATH 2414 Calculus II.

Does MATH 2415 cover curvature and torsion?

Yes. The learning outcomes include calculus on vector-valued functions such as curvature, displacement, velocity, acceleration and torsion.

What is the hardest part of MATH 2415?

Most students find the last chapter, line and surface integrals with the big theorems, the hardest because it combines everything from the course. Practicing setup and parametrization is the key.

Written by the PracticeCalculus team

We build interactive calculus lessons and write every page to be clear and correct. Spotted something off? Tell us and we will fix it.